Atomic State Components for Synchronous Binding and Collective Operations
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Solution Overview
Problem
Conventional actor-based systems lack the capability to perform operations collectively on multiple states, synchronously communicate, and ensure atomicity and synchronous access to states, which are essential for efficient and reliable computing in applications like video gaming and web services.
Innovation Solution
The introduction of 'atoms' as state-maintaining components that can bind together to form molecules, allowing for synchronous operations, atomic shared operations, and synchronous state access, while switching between unbound and bound execution modes to leverage concurrency and parallelism.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Productivity
If conventional actor-based systems are used to maintain state and perform operations concurrently, then operational efficiency and utilization of computing processing capabilities are improved, but the capability to perform operations collectively on multiple states, synchronously communicate, and ensure atomicity is lost
Solution Approach 1:
The system segments state maintenance into atomic units called 'atoms' that can be independently managed. Each atom represents a discrete state component that can be bound to others form molecules, enabling selective collective operations while maintaining individual atomicity. This segmentation allows the system to achieve both concurrent efficiency and collective operation capability.
Solution Approach 2:
The patent combines multiple atoms into molecules to enable collective operations on grouped states. By merging atomic state units into molecular structures, the system can perform synchronous operations on multiple states simultaneously while preserving the underlying atomic boundaries. This merging mechanism provides the versatility to perform collective operations without sacrificing operational efficiency.
2Productivity
If atoms are kept in unbound execution mode to leverage concurrency and parallelism, then operational efficiency is improved, but the ability to perform atomic shared operations and synchronous access to states is reduced
Solution Approach 1:
The system dynamically transitions atoms between unbound and bound execution modes based on operational requirements. In unbound mode, atoms operate independently for maximum concurrency. When collective operations are needed, atoms bind to form molecules, enabling atomic shared operations. This dynamic mode switching resolves the contradiction by adapting the system's level of coordination to the specific task at hand.
Solution Approach 2:
Atoms are designed to be universal components that can function both independently in unbound mode and collectively in bound mode. This multi-functionality allows the same atomic units to serve dual purposes: maintaining high concurrency when operating independently and providing atomic guarantees when bound in molecules. The universal design eliminates the need for separate mechanisms for concurrent and atomic operations.
3Reliability
If atoms are bound together to form molecules for synchronous operations, then reliability and atomicity are improved, but device complexity increases
Solution Approach 1:
The system segments the complexity of managing multiple states by breaking it down into atomic units. Instead of managing complex state interactions directly, the system works with simple, standardized atoms that have well-defined binding and unbinding operations. This segmentation reduces the perceived complexity while enabling sophisticated collective operations through molecular formations.
Solution Approach 2:
The patent uses copying mechanisms where atoms can be replicated and bound in different molecular configurations. Rather than creating entirely new complex structures for each operation, the system reuses atomic templates and binding patterns, reducing the complexity burden. The standardized atom design allows complex behaviors to emerge from simple, reusable components.
Data Source
AI summary
The disclosed techniques may employ components referred to herein as atoms for computing and maintaining of states. Unlike traditional actors, atoms may be capable of binding to other atoms to form a bound combination of atoms, referred to herein as a molecule. In some examples, while bound to other atoms, an atom may operate in a manner that is different from traditional actors. For example, in some cases, atoms that are bound to one another may be prohibited from concurrently performing different operations on their own separate states. Additionally, bound atoms may be operable to collectively (e.g., synchronously) perform shared operations on their associated states. Furthermore, a shared operation performed on the states of bound atoms may be performed atomically. Also, in some examples, bound atoms may be capable of communicating synchronously with one another and of synchronously accessing each other's states.